Answer for calculus part as asked:
(A)
For velocity function:
we can see that the maximum displacement(A) = 0.85-0.75= 0.10
from the image we come to know that difference between 2 successive crests is approx.= 1.2 sec
this is equal to time period(T); i.e. T = 1.2 s
now angular velocity (w)= 2*3.14/T = 6.28/1.2 = 5.23
let displacement(position of mass) = y
since it is SHM, y = A Cos(- wt) = A Cos(wt); (Cosine function used because wave starts at maximum; negative sign because of forward moving wave)
now v =
thus v = -A w Sin(wt);
v = -0.1 * 5.23 Sin(5.23t)
thus v = -0.523 Sin (5.23t)
(B)
1. it depends on the context you are asking the question.
like, there is always some damping associated with the shm, which adds a term containing damping constant(b) so that the equation becomes:
y = A Cos(wt) + B e-bt/2m cos(ωt+φ)
where 1st part is the steady state and second part is transient state.
2.
This is the graph
Position vs. Time of a Mass-Spring System in Simple Harmonic Motion 0.85. 080 0.75 0.70 13 12 11 10 7 9 6 Times) 5 1...
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